2011
DOI: 10.48550/arxiv.1105.0698
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A generalization of the Birthday problem and the chromatic polynomial

Abstract: The birthday paradox states that there is at least a 50% chance that some two out of twenty-three randomly chosen people will share the same birth date. The calculation for this problem assumes that all birth dates are equally likely. We consider the following two modifications of this question. If the distribution of birthdays is non-uniform, does that increase or decrease the probability of matching birth dates? Further, what if we focus on birthdays shared by some particular pairs rather than any two people… Show more

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Cited by 2 publications
(2 citation statements)
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“…Define P G (p) to be the probability that G is properly colored. P G (p) is related to Stanley's generalized chromatic polynomial [50], and under the uniform coloring distribution it is precisely the proportion of proper c-colorings of G. Recently, Fadnavis [26] proved that P G (p) is Schur-convex for every fixed c, whenever the graph G is claw-free, that is, G has no induced K 1,3 . This implies that for claw-free graphs, the probability that it is properly colored is maximized under the uniform distribution, that is, p a = 1/c for all a ∈ [c].…”
Section: Introductionmentioning
confidence: 99%
“…Define P G (p) to be the probability that G is properly colored. P G (p) is related to Stanley's generalized chromatic polynomial [50], and under the uniform coloring distribution it is precisely the proportion of proper c-colorings of G. Recently, Fadnavis [26] proved that P G (p) is Schur-convex for every fixed c, whenever the graph G is claw-free, that is, G has no induced K 1,3 . This implies that for claw-free graphs, the probability that it is properly colored is maximized under the uniform distribution, that is, p a = 1/c for all a ∈ [c].…”
Section: Introductionmentioning
confidence: 99%
“…(3 + 1)-Avoiding Graded Posets (3+1)-avoidance is ubiquitous in the study of poset-avoidance, including the Stanley-Stembridge conjecture[SS93], the birthday problem[Fad11], etc. When we started…”
mentioning
confidence: 99%